Camera module and electronic device

ABSTRACT

A camera module includes an imaging lens assembly, an image sensor, a first reflecting member and a first driving apparatus. The imaging lens assembly is for converging an imaging light on an image surface. The image sensor is disposed on the image surface. The first reflecting member is located on an image side of the imaging lens assembly, the first reflecting member is for folding the imaging light, and has a first translational degrees of freedom. The first reflecting member is assembled on the first driving apparatus, and the first driving apparatus is for driving the first reflecting member moving along the first translational degrees of freedom.

RELATED APPLICATIONS

The present application is a continuation of the application Ser. No.17/024,988, filed Sep. 18, 2020, which claims priority to TaiwanApplication Serial Number 109105900, filed Feb. 24, 2020, which isherein incorporated by reference.

BACKGROUND Technical Field

The present disclosure relates to a camera module. More particularly,the present disclosure relates to a camera module applicable to portableelectronic devices.

Description of Related Art

In recent years, portable electronic devices have developed rapidly. Forexample, intelligent electronic devices and tablets have been filled inthe lives of modern people, and camera modules mounted on portableelectronic devices have also prospered. However, as technology advances,the quality requirements of the camera modules are becoming higher andhigher. Therefore, a camera module, which the focusing distance can beshortened, needs to be developed.

SUMMARY

According to one aspect of the present disclosure, a camera moduleincludes an imaging lens assembly, an image sensor, a first reflectingmember and a first driving apparatus. The imaging lens assembly is forconverging an imaging light on an image surface. The image sensor isdisposed on the image surface. The first reflecting member is located onan image side of the imaging lens assembly, the first reflecting memberis for folding the imaging light, and has a first translational degreesof freedom. The first reflecting member is assembled on the firstdriving apparatus, and the first driving apparatus is for driving thefirst reflecting member moving along the first translational degrees offreedom. When the first reflecting member is close to the imaging lensassembly, the first reflecting member is simultaneously close to theimage sensor; when the first reflecting member is away from the imaginglens assembly, the first reflecting member is simultaneously away fromthe image sensor.

According to one aspect of the present disclosure, an electronic deviceincludes the camera module of the aforementioned aspect.

According to one aspect of the present disclosure, a camera moduleincludes an imaging lens assembly, an image sensor, a first reflectingmember and a first driving apparatus. The imaging lens assembly is forconverging an imaging light on an image surface. The image sensor isdisposed on the image surface. The first reflecting member is located onan image side of the imaging lens assembly, and the first reflectingmember is for folding the imaging light. The first reflecting member isassembled on the first driving apparatus, and the first drivingapparatus includes a supporting member, a moving holder, at least twomagnets and at least two magnetic members. The first reflecting memberis assembled on the moving holder, and the first reflecting memberrelatively moves between the moving holder and the supporting member.The magnets are disposed on the moving holder. The magnetic members aredisposed on the supporting member, and the magnetic members arecorresponding to the magnets. A magnetic force is formed between themagnets and the magnetic members. The first reflecting member includesat least two reflecting surfaces. The reflecting surfaces, the magneticmembers and the magnets are symmetrical arranged, and the reflectingsurfaces, the magnets and the magnetic members are symmetrical arrangedalong a symmetry axis, respectively.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1A is a schematic view of an electronic device according to the 1stexample of the present disclosure.

FIG. 1B is a schematic view of a camera module according to the 1stexample in FIG. 1A.

FIG. 1C is a partially schematic view of the camera module according tothe 1st example in FIG. 1A.

FIG. 1D is an exploded schematic view of the first reflecting member,the first driving apparatus and the second driving apparatus accordingto the 1st example in FIG. 1A.

FIG. 1E is a top view of the camera module according to the 1st examplein FIG. 1A.

FIG. 1F is a schematic view of a rotational degrees of freedom of thethird reflecting member according to the 1st example in FIG. 1A.

FIG. 1G is a schematic view of parameters of the first reflecting memberaccording to the 1st example in FIG. 1A.

FIG. 2A is a schematic view of an electronic device according to the 2ndexample of the present disclosure.

FIG. 2B is a schematic view of a camera module according to the 2ndexample in FIG. 2A.

FIG. 2C is a partially schematic view of the camera module according tothe 2nd example in FIG. 2A.

FIG. 2D is an exploded schematic view of the first reflecting member,the first driving apparatus and the second driving apparatus accordingto the 2nd example in FIG. 2A.

FIG. 2E is a top view of the camera module according to the 2nd examplein FIG. 2A.

FIG. 2F is a schematic view of the rotational degrees of freedom of thesecond reflecting member according to the 2nd example in FIG. 2A.

FIG. 2G is a schematic view of parameters of the first reflecting memberaccording to the 2nd example in FIG. 2A.

FIG. 3A is a schematic view of an electronic device according to the 3rdexample of the present disclosure.

FIG. 3B is a schematic view of a camera module according to the 3rdexample in FIG. 3A.

FIG. 3C is a partially schematic view of the camera module according tothe 3rd example in FIG. 3A.

FIG. 3D is an exploded schematic view of the first reflecting member andthe first driving apparatus according to the 3rd example in FIG. 3A.

FIG. 3E is a top view of the camera module according to the 3rd examplein FIG. 3A.

FIG. 3F is a schematic view of the rotational degrees of freedom of thesecond reflecting member according to the 3rd example in FIG. 3A.

FIG. 3G is a schematic view of parameters of the first reflecting memberaccording to the 3rd example in FIG. 3A.

FIG. 4A is a schematic view of an electronic device according to the 4thexample of the present disclosure.

FIG. 4B is another schematic view of the electronic device according tothe 4th example in FIG. 4A.

FIG. 4C is a block diagram of the electronic device according to the 4thexample in FIG. 4A.

FIG. 4D is a schematic view of an image shot via the ultra-wide anglecamera module according to the 4th example in FIG. 4A.

FIG. 4E is a schematic view of an image shot via the high resolutioncamera module according to the 4th example in FIG. 4A.

FIG. 4F is a schematic view of an image shot via the telephoto cameramodule according to the 4th example in FIG. 4A.

DETAILED DESCRIPTION

The present disclosure provides a camera module, and the camera moduleincludes an imaging lens assembly, an image sensor, a first reflectingmember and a first driving apparatus. The imaging lens assembly is forconverging an imaging light on an image surface. The image sensor isdisposed on the image surface. The first reflecting member is located onan image side of the imaging lens assembly, and the first reflectingmember is for folding the imaging light. The first reflecting member isassembled on the first driving apparatus. Therefore, the camera modulefor driving the first reflecting member can be provided, and it isfavorable for shortening an operation distance of the first drivingapparatus to more quickly control the image.

The first reflecting member can have two translational degrees offreedoms, and the translational degrees of freedoms are substantiallyorthogonal, wherein each of the translational degrees of freedoms can bea first translational degrees of freedom and a second translationaldegrees of freedom. That is, the first translational degrees of freedomand the second translational degrees of freedom are substantiallyorthogonal. In particular, the first reflecting member having the firsttranslational degrees of freedom is regarded that the first reflectingmember can move along a specific direction at a specific surface.Therefore, the moving ability of the first reflecting member at thetwo-dimensional surface can be provided, and the imaging light can bemore flexibly controlled.

The first driving apparatus can be for driving the first reflectingmember moving along the first translational degrees of freedom, whereinthe first driving apparatus has the functions of the autofocus and theoptical image stabilization, and a driving displacement of the firstreflecting member along the first translational degrees of freedom issmaller than a variation of back focal length of the camera module.Furthermore, the first driving apparatus can be at least one of anautofocus driving apparatus and an optical image stabilization drivingapparatus, and the imaging lens assembly can be a telephoto lensassembly with long focal length. The entire space can be reduced via thefirst reflecting member to obtain the more efficient space application,and the feasibility of the compact size of the camera module can beprovided.

When the first reflecting member is close to the imaging lens assembly,the first reflecting member is simultaneously close to the image sensor;when the first reflecting member is away from the imaging lens assembly,the first reflecting member is simultaneously away from the imagesensor. It should be mentioned that the long-driving-path function ishardly obtained when the telephoto lens assembly has the higher focalvariations. Therefore, the present disclosure is favorable for solvingthe aforementioned problem, that is, the focusable range of thetelephoto lens assembly can be widened.

The first driving apparatus can include a supporting member, a movingholder, at least one magnet and at least one magnetic member. Moreover,the first driving apparatus can include at least two magnets and atleast two magnetic members, but is not limited thereto. The firstreflecting member is assembled on the moving holder, and the firstreflecting member relatively moves between the supporting member and themoving holder. The magnets are disposed on the moving holder. Themagnetic members are disposed on the supporting member, and the magneticmembers are corresponding to the magnets. A magnetic force is formedbetween the magnets and the magnetic members. In detail, the magneticforce between the magnets and the magnetic members is a force attractingeach other. Therefore, the preloading force between the moving holderand the supporting member can be provided, and it is favorable forenhancing the structural stability of the first driving apparatus.

The first reflecting member can include at least two reflectingsurfaces, and the reflecting surfaces move towards a same direction viathe first driving apparatus. Therefore, the volume of the camera modulecan be substantially reduced via the structure of secondary reflection.

Both of a number of the magnetic members and a number of the magnets canbe at least two, the reflecting surfaces, the magnetic members and themagnets are symmetrical arranged, and the reflecting surfaces, themagnetic members and the magnets are symmetrical arranged along asymmetry axis, respectively. Therefore, the assembling difficulty of thecamera module can be simplified, and the skew situation during theassembly and the production of the camera module can be avoided topromote the production yield rate of the entire camera module.

A groove can be included between the supporting member and the movingholder, the groove extends along the first translational degrees offreedom, and a rolling member is disposed on the groove. Therefore, theskew situation caused by the first driving apparatus can be improved toincrease the linear stability of the movement.

The first driving apparatus can include a coil, and a driving force isformed along the first translational degrees of freedom via the coilwith the magnets. Therefore, the autofocus function of the camera modulecan be obtained.

The camera module can further include a second driving apparatus, andthe second driving apparatus is for driving the first reflecting membermoving along the second translational degrees of freedom. Therefore, itis favorable for obtaining the optical image stabilization.

The camera module can further include a second reflecting member and athird driving apparatus, wherein the second reflecting member has arotational degrees of freedom, and the third driving apparatus is fordriving the second reflecting member rotating along the rotationaldegrees of freedom. Therefore, the optical image stabilization of thecamera module in another dimension can be obtained.

The first reflecting member can include an incident surface and anexiting surface, and at least one of the incident surface and theexiting surface has an aspheric surface. Therefore, the first reflectingmember can have refractive power to compensate optical aberrations.

Each of the imaging lens assembly and the image sensor can have a fixedrelative position, and the first reflecting member moves correspondinglyto the imaging lens assembly and the image sensor. Therefore, it isfavorable for lowering the complexity of the assembling process andenhancing the assembling efficiency.

The camera module can further include a third reflecting member, thethird reflecting member has the rotational degrees of freedom, and thethird driving apparatus is for driving the third reflecting memberrotating along the rotational degrees of freedom. Therefore, the opticalimage stabilization of the camera module in another dimension can beobtained.

When a refractive index of the first reflecting member at d-line is N,the following condition can be satisfied: 1.66≤N<2.5. Moreover, thefirst reflecting member can be made of a plastic material or a glassmaterial. Therefore, increasing the range of the reflecting angle isfavorable for reducing the volume of the first reflecting member.Further, the following condition can be satisfied: 1.70≤N<2.5.

When a thickness of the first reflecting member is H, the followingcondition can be satisfied: 3.00 mm≤H≤10.00 mm. The aforementioned rangeis the thickness range that the imaging light can be stabilized via thefirst reflecting member in the limited space. Therefore, the superioroptical quality of the camera module of the compact size can beobtained.

When a length of the camera module is L, and a width of the cameramodule is W, the following condition can be satisfied: 0.7<L/W<3.5.Moreover, the calculation of the length of the camera module isaccording to the direction of the optical axis of the imaging lensassembly, and the calculation of the width of the camera module isaccording to the direction vertical to the optical axis. Therefore, itis favorable for shortening the proportional range of the elongatedtelephoto camera module. Further, the following condition can besatisfied: 0.8<L/W<2.5. Therefore, the proportional range of the entirevolume of the telephoto camera module can be further reduced.

Each of the aforementioned features of the camera module can be utilizedin various combinations for achieving the corresponding effects.

The present disclosure provides an electronic device, which includes theaforementioned camera module.

According to the aforementioned embodiment, specific examples areprovided, and illustrated via figures.

1st Example

FIG. 1A is a schematic view of an electronic device 10 according to the1st example of the present disclosure. FIG. 1B is a schematic view of acamera module 100 according to the 1st example in FIG. 1A. In FIGS. 1Aand 1B, the electronic device 10 includes the camera module 100, and thecamera module 100 includes an imaging lens assembly 110, an image sensor120, a first reflecting member 130, a first driving apparatus 140 (asshown in FIG. 1D), a second driving apparatus 170 (as shown in FIG. 1D),a second reflecting member 150, a third driving apparatus 180 (as shownin FIG. 1F) and a third reflecting member 160, wherein the third drivingapparatus 180 is an image-side driving apparatus, the second reflectingmember 150 is an object-side reflecting member, and the third reflectingmember 160 is an image-side reflecting member. The first drivingapparatus 140 can be at least one of an autofocus driving apparatus andan optical image stabilization driving apparatus, and the imaging lensassembly 110 can be a telephoto lens assembly with long focal length,but are not limited thereto.

The imaging lens assembly 110 is for converging an imaging light on animage surface (its reference numeral is omitted), and the image sensor120 is disposed on the image surface. The first reflecting member 130 islocated on an image side of the imaging lens assembly 110, assembled onthe first driving apparatus 140, and for folding the imaging light. Indetail, the imaging light enters the camera module 100 from an incidentsurface (its reference numeral is omitted) of the second reflectingmember 150, and the imaging light is converged on the image surface viathe imaging lens assembly 110. The first driving apparatus 140 has thefunction of the autofocus, and the second driving apparatus 170 and thethird driving apparatus 180 have the function of the optical imagestabilization.

In FIG. 1B, each of the imaging lens assembly 110 and the image sensor120 has a fixed relative position, and the first reflecting member 130moves correspondingly to the imaging lens assembly 110 and the imagesensor 120. Therefore, it is favorable for lowering the complexity ofthe assembling process and enhancing the assembling efficiency.

Furthermore, when the first reflecting member 130 is close to theimaging lens assembly 110, the first reflecting member 130 issimultaneously close to the image sensor 120; when the first reflectingmember 130 is away from the imaging lens assembly 110, the firstreflecting member 130 is simultaneously away from the image sensor 120.In particular, the camera module 100 for driving the first reflectingmember 130 can be provided via the present disclosure, and it isfavorable for shortening an operation distance of the first drivingapparatus 140, the second driving apparatus 170 and the third drivingapparatus 180 to more quickly control the image.

The entire space can be reduced via the first reflecting member 130 toobtain the more efficient space application, and the feasibility of thecompact size of the camera module 100 can be provided. It should bementioned that the long-driving-path function is hardly obtained whenthe telephoto lens assembly has the higher focal variations. Therefore,the present disclosure is favorable for solving the aforementionedproblem, that is, the focusable range of the telephoto lens assembly canbe widened.

FIG. 1C is a partially schematic view of the camera module 100 accordingto the 1st example in FIG. 1A. In FIG. 1C, the first reflecting member130 includes an incident surface A, an exiting surface B and at leasttwo reflecting surfaces 131 (as shown in FIG. 1E), wherein the imaginglight can be folded from the incident surface A to the exiting surfaceB, and the reflecting surfaces 131 move towards a same direction via thefirst driving apparatus 140. Therefore, the volume of the camera module100 can be substantially reduced via the structure of secondaryreflection. In detail, the first reflecting member 130 can be made of aplastic material or a glass material. According to the 1st example, thefirst reflecting member 130 is made of the plastic material, but is notlimited thereto. Therefore, the camera module 100 has the designflexibility under the consideration of optical design, and it isfavorable for developing the plastic material with high refractivity andlowering the developing threshold of the optical element with doublereflecting surface.

The first driving apparatus 140 can include a supporting member 141, amoving holder 142, at least one magnet, at least one magnetic member, acoil, a plurality of rolling members and a holder 147. FIG. 1D is anexploded schematic view of the first reflecting member 130, the firstdriving apparatus 140 and the second driving apparatus 170 according tothe 1st example in FIG. 1A. In FIG. 1D, according to the 1st example,the first driving apparatus 140 includes the supporting member 141, themoving holder 142, a first magnet 143, a first magnetic member 144,first coils 145, first rolling members 146 and the holder 147, and thesecond driving apparatus 170 includes a second magnet 171, a secondmagnetic member 172, second coils 173 and second rolling members 174.

According to the 1st example, a number of the first magnets 143 is two,a number of the first magnetic members 144 is two, a number of the firstcoils 145 is two, a number of the first rolling members 146 is four, anumber of the second magnets 171 is two, a number of the second magneticmembers 172 is two, a number of the second coils 173 is two, a number ofthe second rolling members 174 is four, but are not limited thereto.

In detail, the first reflecting member 130 is assembled on the movingholder 142, and the first reflecting member 130 relatively moves betweenthe moving holder 142 and the supporting member 141. The magnets aredisposed on the moving holder 142. The magnetic members are disposed onthe supporting member 141, and the magnetic members are corresponding tothe magnets. A magnetic force is formed between the magnets and themagnetic members. According to the 1st example, each of the firstmagnets 143 and the second magnets 171 is disposed on the moving holder142 and the supporting member 141, each of the first magnetic members144 and the second magnetic members 172 is disposed on the supportingmember 141 and the holder 147, the first magnets 143 are correspondingto the first magnetic members 144, and the second magnets 171 arecorresponding to the second magnetic members 172. The magnetic force isformed between the first magnets 143 and the first magnetic members 144,and the magnetic force is formed between the second magnets 171 and thesecond magnetic members 172. Both of the magnetic force between thefirst magnets 143 and the first magnetic members 144 and the magneticforce between the second magnets 171 and the second magnetic members 172are the forces attracting each other. Therefore, the preloading forcebetween the moving holder 142 and the supporting member 141 can beprovided, and it is favorable for enhancing the structural stability ofthe first driving apparatus 140 and the second driving apparatus 170.

FIG. 1E is a top view of the camera module 100 according to the 1stexample in FIG. 1A. In FIGS. 1D and 1E, each of the first drivingapparatus 140 and the second driving apparatus 170 is for driving thefirst reflecting member 130 moving along two translational degrees offreedoms, and each of the translational degrees of freedoms is a firsttranslational degrees of freedom F1 and a second translational degreesof freedom F2. Therefore, it is favorable for obtaining the opticalimage stabilization of the camera module 100. In particular, the degreesof freedom can include surge, sway, heave, pitch, yaw and roll, whereinsurge, sway and heave are classified as the translational degrees offreedom, and pitch, yaw and roll are classified as the rotationaldegrees of freedom.

In detail, the first reflecting member 130 has the first translationaldegrees of freedom F1, and the first driving apparatus 140 is fordriving the first reflecting member 130 moving along the firsttranslational degrees of freedom F1. That is, the first reflectingmember 130 can move along the specific direction at the specificsurface, and the driving displacement of the first reflecting member 130along the first translational degrees of freedom F1 is smaller than avariation of back focal length of the camera module 100. Furthermore,the first translational degrees of freedom F1 is provided between thesupporting member 141 and the moving holder 142, and a driving force isformed along the first translational degrees of freedom F1 via the coilwith the magnets. According to the 1st example, the driving force isformed along the first translational degrees of freedom F1 via the firstcoil 145 with the first magnets 143. Therefore, the autofocus functionof the camera module 100 can be obtained.

The first reflecting member 130 has the second translational degrees offreedom F2, and the first translational degrees of freedom F1 and thesecond translational degrees of freedom F2 are substantially orthogonal.Therefore, the moving ability of the first reflecting member 130 at thetwo-dimensional surface can be provided, and the imaging light can bemore flexibly controlled. Moreover, the second translational degrees offreedom F2 is provided between the supporting member 141 and the holder147, and the second driving apparatus 170 is for driving the firstreflecting member 130 moving along the second translational degrees offreedom F2. Therefore, it is favorable for obtaining the optical imagestabilization.

In FIGS. 1D and 1E, a groove can be included between the supportingmember 141 and the moving holder 142. According to the 1st example,grooves 141 a are included between the supporting member 141 and themoving holder 142, and grooves 141 b are included between the supportingmember 141 and the holder 147. According to the 1st example, a number ofthe grooves 141 a is four, and a number of the grooves 141 b is four,but are not limited thereto.

Furthermore, the grooves 141 a extend along the first translationaldegrees of freedom F1, the grooves 141 b extend along the secondtranslational degrees of freedom F2, and each of the rolling members isdisposed on each of the grooves 141 a, 141 b. According to the 1stexample, each of the first rolling members 146 is disposed on each ofthe grooves 141 a, and each of the second rolling members 174 isdisposed on each of the grooves 141 b. Therefore, the skew situationcaused by the first driving apparatus 140 and the second drivingapparatus 170 can be improved to increase the linear stability of themovement.

In FIG. 1E, the reflecting surfaces 131, the magnetic members and themagnets are symmetrical arranged, and the reflecting surfaces 131, themagnetic members and the magnets are symmetrical arranged along asymmetry axis X, respectively. According to the 1st example, thereflecting surfaces 131, the first magnets 143, the first magneticmembers 144, the second magnets 171 and the second magnetic members 172are symmetrical arranged, and the reflecting surfaces 131, the firstmagnets 143, the first magnetic members 144, the second magnets 171 andthe second magnetic members 172 are symmetrical arranged along thesymmetry axis X, respectively. Therefore, the assembling difficulty ofthe camera module 100 can be simplified, and the skew situation duringthe assembly and the production of the camera module 100 can be avoidedto promote the production yield rate of the entire camera module 100.

FIG. 1F is a schematic view of a rotational degrees of freedom R of thethird reflecting member 160 according to the 1st example in FIG. 1A. InFIG. 1F, the third reflecting member 160 has the rotational degrees offreedom R, and the third driving apparatus 180 is for driving the thirdreflecting member 160 rotating along the rotational degrees of freedomR. In particular, the third driving apparatus 180 is for driving thethird reflecting member 160 rotating along the axis vertical to theincident light path and the exit light path. Therefore, the opticalimage stabilization of the camera module 100 in another dimension can beobtained.

FIG. 1G is a schematic view of parameters of the first reflecting member130 according to the 1st example in FIG. 1A. In FIGS. 1A and 1G,according to the 1st example, when a refractive index of the firstreflecting member 130 at d-line is N, a wavelength of d-line is 587.6nm, a thickness of the first reflecting member 130 is H, a length of thecamera module 100 is L, and a width of the camera module 100 is W, thefollowing conditions of the Table 1 are satisfied.

TABLE 1 1st example N 1.73 W (mm) 19.8 H (mm) 4.5 L/W 1.16 L (mm) 23.0

2nd Example

FIG. 2A is a schematic view of an electronic device 20 according to the2nd example of the present disclosure. FIG. 2B is a schematic view of acamera module 200 according to the 2nd example in FIG. 2A. In FIGS. 2Aand 2B, the electronic device 20 includes the camera module 200, and thecamera module 200 includes an imaging lens assembly 210, an image sensor220, a first reflecting member 230, a first driving apparatus 240 (asshown in FIG. 2D), a second driving apparatus 270 (as shown in FIG. 2D),a second reflecting member 250 and a third driving apparatus (notshown), wherein the third driving apparatus is an object-side drivingapparatus, and the second reflecting member 250 is an object-sidereflecting member. The first driving apparatus 240 can be at least oneof an autofocus driving apparatus and an optical image stabilizationdriving apparatus, and the imaging lens assembly 210 can be a telephotolens assembly with long focal length, but are not limited thereto.

The imaging lens assembly 210 is for converging an imaging light on animage surface (not shown), and the image sensor 220 is disposed on theimage surface. The first reflecting member 230 is located on an imageside of the imaging lens assembly 210, assembled on the first drivingapparatus 240, and for folding the imaging light. In detail, the imaginglight enters the camera module 200 from an incident surface (itsreference numeral is omitted) of the second reflecting member 250, andthe imaging light is converged on the image surface via the imaging lensassembly 210. The first driving apparatus 240 has the function of theautofocus, and the second driving apparatus 270 and the third drivingapparatus have the function of the optical image stabilization.

In FIG. 2B, each of the imaging lens assembly 210 and the image sensor220 has a fixed relative position, and the first reflecting member 230moves correspondingly to the imaging lens assembly 210 and the imagesensor 220. Therefore, it is favorable for lowering the complexity ofthe assembling process and enhancing the assembling efficiency.

Furthermore, when the first reflecting member 230 is close to theimaging lens assembly 210, the first reflecting member 230 issimultaneously close to the image sensor 220; when the first reflectingmember 230 is away from the imaging lens assembly 210, the firstreflecting member 230 is simultaneously away from the image sensor 220.In particular, the camera module 200 for driving the first reflectingmember 230 can be provided via the present disclosure, and it isfavorable for shortening an operation distance of the first drivingapparatus 240, the second driving apparatus 270 and the third drivingapparatus to more quickly control the image.

The entire space can be reduced via the first reflecting member 230 toobtain the more efficient space application, and the feasibility of thecompact size of the camera module 200 can be provided. It should bementioned that the long-driving-path function is hardly obtained whenthe telephoto lens assembly has the higher focal variations. Therefore,the present disclosure is favorable for solving the aforementionedproblem, that is, the focusable range of the telephoto lens assembly canbe widened.

FIG. 2C is a partially schematic view of the camera module 200 accordingto the 2nd example in FIG. 2A. In FIG. 2C, the first reflecting member230 includes an incident surface A, an exiting surface B and at leasttwo reflecting surfaces 231 (as shown in FIG. 2E), wherein the imaginglight can be folded from the incident surface A to the exiting surfaceB, and the reflecting surfaces 231 move towards a same direction via thefirst driving apparatus 240. Therefore, the volume of the camera module200 can be substantially reduced via the structure of secondaryreflection. In detail, the first reflecting member 230 can be made of aplastic material or a glass material. According to the 2nd example, thefirst reflecting member 230 is made of the glass material, but is notlimited thereto.

The first driving apparatus 240 can include a supporting member 241, amoving holder 242, at least one magnet, at least one magnetic member, acoil, a plurality of rolling members and a holder 247. FIG. 2D is anexploded schematic view of the first reflecting member 230, the firstdriving apparatus 240 and the second driving apparatus 270 according tothe 2nd example in FIG. 2A. In FIG. 2D, according to the 2nd example,the first driving apparatus 240 includes the supporting member 241, themoving holder 242, a first magnet 243, a first magnetic member 244,first coils 245, first rolling members 246 and the holder 247, and thesecond driving apparatus 270 includes a second magnet 271, a secondmagnetic member 272, second coils 273 and second rolling members 274.

According to the 2nd example, a number of the first magnets 243 is two,a number of the first magnetic members 244 is two, a number of the firstcoils 245 is two, a number of the first rolling members 246 is four, anumber of the second magnets 271 is two, a number of the second magneticmembers 272 is two, a number of the second coils 273 is two, a number ofthe second rolling members 274 is four, but are not limited thereto.

In detail, the first reflecting member 230 is assembled on the movingholder 242, and the first reflecting member 230 relatively moves betweenthe supporting member 241 and the moving holder 242. The magnets aredisposed on the moving holder 242. The magnetic members are disposed onthe supporting member 241, and the magnetic members are corresponding tothe magnets. A magnetic force is formed between the magnets and themagnetic members. According to the 2nd example, each of the firstmagnets 243 and the second magnets 271 is disposed on the supportingmember 241 and the moving holder 242, each of the first magnetic members244 and the second magnetic members 272 is disposed on the holder 247and the supporting member 241, the first magnets 243 are correspondingto the first magnetic members 244, and the second magnets 271 arecorresponding to the second magnetic members 272. The magnetic force isformed between the first magnets 243 and the first magnetic members 244,and the magnetic force is formed between the second magnets 271 and thesecond magnetic members 272. Both of the magnetic force between thefirst magnets 243 and the first magnetic members 244 and the magneticforce between the second magnets 271 and the second magnetic members 272are the forces attracting each other. Therefore, the preloading forcebetween the moving holder 242 and the supporting member 241 can beprovided, and it is favorable for enhancing the structural stability ofthe first driving apparatus 240 and the second driving apparatus 270.

FIG. 2E is a top view of the camera module 200 according to the 2ndexample in FIG. 2A. In FIGS. 2D and 2E, each of the first drivingapparatus 240 and the second driving apparatus 270 is for driving thefirst reflecting member 230 moving along two translational degrees offreedoms, and each of the translational degrees of freedoms is a firsttranslational degrees of freedom F1 and a second translational degreesof freedom F2. Therefore, it is favorable for obtaining the opticalimage stabilization of the camera module 200. In particular, the degreesof freedom can include surge, sway, heave, pitch, yaw and roll, whereinsurge, sway and heave are classified as the translational degrees offreedom, and pitch, yaw and roll are classified as the rotationaldegrees of freedom.

In detail, the first reflecting member 230 has the first translationaldegrees of freedom F1, and the first driving apparatus 240 is fordriving the first reflecting member 230 moving along the firsttranslational degrees of freedom F1. That is, the first reflectingmember 230 can move along the specific direction at the specificsurface, and the driving displacement of the first reflecting member 230along the first translational degrees of freedom F1 is smaller than avariation of back focal length of the camera module 200. Furthermore,the first translational degrees of freedom F1 is provided between thesupporting member 241 and the holder 247, and a driving force is formedalong the first translational degrees of freedom F1 via the coil withthe magnets. According to the 2nd example, the driving force is formedalong the first translational degrees of freedom F1 via the first coil245 with the first magnets 243. Therefore, the autofocus function of thecamera module 200 can be obtained.

The first reflecting member 230 has the second translational degrees offreedom F2, and the first translational degrees of freedom F1 and thesecond translational degrees of freedom F2 are substantially orthogonal.Therefore, the moving ability of the first reflecting member 230 at thetwo-dimensional surface can be provided, and the imaging light can bemore flexibly controlled. Moreover, the second translational degrees offreedom F2 is provided between the supporting member 241 and the movingholder 242, and the second driving apparatus 270 is for driving thefirst reflecting member 230 moving along the second translationaldegrees of freedom F2. Therefore, it is favorable for obtaining theoptical image stabilization.

In FIGS. 2D and 2E, a groove can be included between the supportingmember 241 and the moving holder 242. According to the 2nd example,grooves 241 a are included between the supporting member 241 and themoving holder 242, and grooves 241 b are included between the supportingmember 241 and the holder 247. According to the 2nd example, a number ofthe grooves 241 a is four, and a number of the grooves 241 b is four,but are not limited thereto.

Furthermore, the grooves 241 b extend along the first translationaldegrees of freedom F1, the grooves 241 a extend along the secondtranslational degrees of freedom F2, and each of the rolling members isdisposed on each of the grooves 241 a, 241 b. According to the 2ndexample, each of the first rolling members 246 is disposed on each ofthe grooves 241 b, and each of the second rolling members 274 isdisposed on each of the grooves 241 a. Therefore, the skew situationcaused by the first driving apparatus 240 and the second drivingapparatus 270 can be improved to increase the linear stability of themovement.

In FIG. 2E, the reflecting surfaces 231, the magnetic members and themagnets are symmetrical arranged, and the reflecting surfaces 231, themagnetic members and the magnets are symmetrical arranged along asymmetry axis X, respectively. According to the 2nd example, thereflecting surfaces 231, the first magnets 243, the first magneticmembers 244, the second magnets 271 and the second magnetic members 272are symmetrical arranged, and the reflecting surfaces 231, the firstmagnets 243, the first magnetic members 244, the second magnets 271 andthe second magnetic members 272 are symmetrical arranged along thesymmetry axis X, respectively. Therefore, the assembling difficulty ofthe camera module 200 can be simplified, and the skew situation duringthe assembly and the production of the camera module 200 can be avoidedto promote the production yield rate of the entire camera module 200.

Moreover, an angle θ is between the incident surface A and the symmetryaxis X and between the exiting surface B and the symmetry axis X,respectively. Further, the angle θ is 45 degrees, but is not limitedthereto.

FIG. 2F is a schematic view of the rotational degrees of freedom R ofthe second reflecting member 250 according to the 2nd example in FIG.2A. In FIG. 2F, the second reflecting member 250 has the rotationaldegrees of freedom R, and the third driving apparatus is for driving thesecond reflecting member 250 rotating along the rotational degrees offreedom R. In particular, the third driving apparatus is for driving thesecond reflecting member 250 rotating along the axis vertical to theincident light path and the exit light path. Therefore, the opticalimage stabilization of the camera module 200 in another dimension can beobtained.

FIG. 2G is a schematic view of parameters of the first reflecting member230 according to the 2nd example in FIG. 2A. In FIGS. 2A and 2G,according to the 2nd example, when a refractive index of the firstreflecting member 230 at d-line is N, a wavelength of d-line is 587.6nm, a thickness of the first reflecting member 230 is H, a length of thecamera module 200 is L, and a width of the camera module 200 is W, thefollowing conditions of the Table 2 are satisfied.

TABLE 2 2nd example N 1.95 W (mm) 21.0 H (mm) 5.0 L/W 1.64 L (mm) 34.5

3rd Example

FIG. 3A is a schematic view of an electronic device 30 according to the3rd example of the present disclosure. FIG. 3B is a schematic view of acamera module 300 according to the 3rd example in FIG. 3A. In FIGS. 3Aand 3B, the electronic device 30 includes the camera module 300, and thecamera module 300 includes an imaging lens assembly 310, an image sensor320, a first reflecting member 330, a first driving apparatus 340, asecond reflecting member 350 and a third driving apparatus (not shown),wherein the third driving apparatus is an object-side driving apparatus,and the second reflecting member 350 is an object-side reflectingmember. The first driving apparatus 340 can be at least one of anautofocus driving apparatus and an optical image stabilization drivingapparatus, and the imaging lens assembly 310 can be a telephoto lensassembly with long focal length, but are not limited thereto.

The imaging lens assembly 310 is for converging an imaging light on animage surface (not shown), and the image sensor 320 is disposed on theimage surface. The first reflecting member 330 is located on an imageside of the imaging lens assembly 310, assembled on the first drivingapparatus 340, and for folding the imaging light. In detail, the imaginglight enters the camera module 300 from an incident surface (itsreference numeral is omitted) of the second reflecting member 350, andthe imaging light is converged on the image surface via the imaging lensassembly 310. The first driving apparatus 340 has the function of theautofocus, and the third driving apparatus have the function of theoptical image stabilization.

In FIG. 3B, each of the imaging lens assembly 310 and the image sensor320 has a fixed relative position, and the first reflecting member 330moves correspondingly to the imaging lens assembly 310 and the imagesensor 320. Therefore, it is favorable for lowering the complexity ofthe assembling process and enhancing the assembling efficiency.

Furthermore, when the first reflecting member 330 is close to theimaging lens assembly 310, the first reflecting member 330 issimultaneously close to the image sensor 320; when the first reflectingmember 330 is away from the imaging lens assembly 310, the firstreflecting member 330 is simultaneously away from the image sensor 320.In particular, the camera module 300 for driving the first reflectingmember 330 can be provided via the present disclosure, and it isfavorable for shortening an operation distance of the first drivingapparatus 340 and the third driving apparatus to more quickly controlthe image.

The entire space can be reduced via the first reflecting member 330 toobtain the more efficient space application, and the feasibility of thecompact size of the camera module 300 can be provided. It should bementioned that the long-driving-path function is hardly obtained whenthe telephoto lens assembly has the higher focal variations. Therefore,the present disclosure is favorable for solving the aforementionedproblem, that is, the focusable range of the telephoto lens assembly canbe widened.

FIG. 3C is a partially schematic view of the camera module 300 accordingto the 3rd example in FIG. 3A. In FIG. 3C, the first reflecting member330 includes an incident surface A, an exiting surface B and at leasttwo reflecting surfaces 331 (as shown in FIG. 3E), wherein the imaginglight can be folded from the incident surface A to the exiting surfaceB, and the reflecting surfaces 331 move towards a same direction via thefirst driving apparatus 340. Therefore, the volume of the camera module300 can be substantially reduced via the structure of secondaryreflection. In detail, the first reflecting member 330 can be made of aplastic material or a glass material. According to the 3rd example, thefirst reflecting member 330 is made of the plastic material, but is notlimited thereto. Therefore, the camera module 300 has the designflexibility under the consideration of optical design, and it isfavorable for developing the plastic material with high refractivity andlowering the developing threshold of the optical element with doublereflecting surface.

Furthermore, at least one of the incident surface A and the exitingsurface B of the first reflecting member 330 has an aspheric surface.According to the 3rd example, both of the incident surface A and theexiting surface B have aspheric surfaces, but are not limited thereto.Therefore, the first reflecting member 330 can have refractive power tocompensate optical aberrations.

The first driving apparatus 340 can include a supporting member 341, amoving holder 342, at least one magnet, at least one magnetic member, acoil and a plurality of rolling members. FIG. 3D is an explodedschematic view of the first reflecting member 330 and the first drivingapparatus 340 according to the 3rd example in FIG. 3A. In FIG. 3D,according to the 3rd example, the first driving apparatus 340 includesthe supporting member 341, the moving holder 342, a first magnet 343, afirst magnetic member 344, first coils 345 and first rolling members346, wherein the supporting member 341 also has the function of aholder.

According to the 3rd example, a number of the first magnets 343 is two,a number of the first magnetic members 344 is two, a number of the firstcoils 345 is two, a number of the first rolling members 346 is four, butare not limited thereto.

In detail, the first reflecting member 330 is assembled on the movingholder 342, and the first reflecting member 330 relatively moves betweenthe moving holder 342 and the supporting member 341. The magnets aredisposed on the moving holder 342. The magnetic members are disposed onthe supporting member 341, and the magnetic members are corresponding tothe magnets. A magnetic force is formed between the magnets and themagnetic members. According to the 3rd example, the first magnets 343are disposed on the moving holder 342, the first magnetic members 344are disposed on the supporting member 341, the first magnets 343 arecorresponding to the first magnetic members 344. The magnetic force isformed between the first magnets 343 and the first magnetic members 344.The magnetic force between the first magnets 343 and the first magneticmembers 344 is the forces attracting each other. Therefore, thepreloading force between the moving holder 342 and the supporting member341 can be provided, and it is favorable for enhancing the structuralstability of the first driving apparatus 340.

FIG. 3E is a top view of the camera module 300 according to the 3rdexample in FIG. 3A. In FIGS. 3D and 3E, the first driving apparatus 340is for driving the first reflecting member 330 moving along a firsttranslational degrees of freedom F1. Therefore, it is favorable forobtaining the optical image stabilization of the camera module 300. Inparticular, the degrees of freedom can include surge, sway, heave,pitch, yaw and roll, wherein surge, sway and heave are classified as thetranslational degrees of freedom, and pitch, yaw and roll are classifiedas the rotational degrees of freedom.

In detail, the first reflecting member 330 has the first translationaldegrees of freedom F1, and the first driving apparatus 340 is fordriving the first reflecting member 330 moving along the firsttranslational degrees of freedom F1. That is, the first reflectingmember 330 can move along the specific direction at the specificsurface, and the driving displacement of the first reflecting member 330along the first translational degrees of freedom F1 is smaller than avariation of back focal length of the camera module 300. Furthermore,the first translational degrees of freedom F1 is provided between thesupporting member 341 and the moving holder 342, and a driving force isformed along the first translational degrees of freedom F1 via the coilwith the magnets. According to the 3rd example, the driving force isformed along the first translational degrees of freedom F1 via the firstcoil 345 with the first magnets 343. Therefore, the autofocus functionof the camera module 300 can be obtained.

In FIGS. 3D and 3E, a groove can be included between the supportingmember 341 and the moving holder 342. According to the 3rd example,grooves 341 a are included between the supporting member 341 and themoving holder 342. According to the 3rd example, a number of the grooves341 a is four, but is not limited thereto.

Furthermore, the grooves 341 a extend along the first translationaldegrees of freedom F1, and each of the rolling members is disposed oneach of the grooves 341 a. According to the 3rd example, each of thefirst rolling members 346 is disposed on each of the grooves 341 a.Therefore, the skew situation caused by the first driving apparatus 340can be improved to increase the linear stability of the movement.

In FIG. 3E, the reflecting surfaces 331, the magnetic members and themagnets are symmetrical arranged, and the reflecting surfaces 331, themagnetic members and the magnets are symmetrical arranged along asymmetry axis X, respectively. According to the 3rd example, thereflecting surfaces 331, the first magnets 343 and the first magneticmembers 344 are symmetrical arranged, and the reflecting surfaces 331,the first magnets 343 and the first magnetic members 344 are symmetricalarranged along the symmetry axis X, respectively. Therefore, theassembling difficulty of the camera module 300 can be simplified, andthe skew situation during the assembly and the production of the cameramodule 300 can be avoided to promote the production yield rate of theentire camera module 300.

FIG. 3F is a schematic view of the rotational degrees of freedom R ofthe second reflecting member 350 according to the 3rd example in FIG.3A. In FIG. 3F, the second reflecting member 350 has the rotationaldegrees of freedom R, and the third driving apparatus is for driving thesecond reflecting member 350 rotating along the rotational degrees offreedom R. In particular, the third driving apparatus is for driving thesecond reflecting member 350 rotating along the axis vertical to theincident light path and the exit light path. Therefore, the opticalimage stabilization of the camera module 300 in another dimension can beobtained.

FIG. 3G is a schematic view of parameters of the first reflecting member330 according to the 3rd example in FIG. 3A. In FIGS. 3A and 3G,according to the 3rd example, when a refractive index of the firstreflecting member 330 at d-line is N, a wavelength of d-line is 587.6nm, a thickness of the first reflecting member 330 is H, a length of thecamera module 300 is L, and a width of the camera module 300 is W, thefollowing conditions of the Table 3 are satisfied.

TABLE 3 3rd example N 1.68 W (mm) 15.6 H (mm) 4.0 L/W 1.42 L (mm) 22.2

4th Example

FIG. 4A is a schematic view of an electronic device 40 according to the4th example of the present disclosure. FIG. 4B is another schematic viewof the electronic device 40 according to the 4th example in FIG. 4A. InFIGS. 4A and 4B, the electronic device 40 is a smart phone, and includesa camera module 41 (as shown in FIG. 4C), wherein the camera module 41includes a ultra-wide angle camera module 41 a, a high resolution cameramodule 41 b and a telephoto camera module 41 c, and the telephoto cameramodule 41 c can be one of the camera modules according to theaforementioned 1st example to the 3rd example, but is not limitedthereto. Therefore, it is favorable for satisfying the requirements ofthe mass production and the appearance of the camera modules mounted onthe electronic devices according to the current marketplace of theelectronic device.

Moreover, users enter a shooting mode via the user interface 42 of theelectronic device 40, wherein the user interface 42 according to the 4thexample can be a touch screen for displaying the scene and have thetouch function, and the shooting angle can be manually adjusted toswitch the ultra-wide angle camera 41 a, the high resolution cameramodule 41 b and the telephoto camera module 41 c. At this moment, theimaging light is gathered on the image sensor (not shown) via an imaginglens assembly (not shown) of the camera module 41, and an electronicsignal about an image is output to an image signal processor (ISP) 43.

FIG. 4C is a block diagram of the electronic device 40 according to the4th example in FIG. 4A. In FIGS. 4B and 4C, to meet a specification of acamera of the electronic device 40, the electronic device 40 can furtherinclude an optical anti-shake mechanism 44. Furthermore, the electronicdevice 40 can further include at least one focusing assisting module 47and at least one sensing element 45. The focusing assisting module 47can be a flash module 46 for compensating a color temperature, aninfrared distance measurement component, a laser focus module, etc. Thesensing element 45 can have functions for sensing physical momentum andkinetic energy, such as an accelerator, a gyroscope, a Hall EffectElement, to sense shaking or jitters applied by hands of the user orexternal environments. Accordingly, the imaging lens assembly of theelectronic device 40 equipped with an auto-focusing mechanism and theoptical anti-shake mechanism 44 can be enhanced to achieve the superiorimage quality. Furthermore, the electronic device 40 according to thepresent disclosure can have a capturing function with multiple modes,such as taking optimized selfies, high dynamic range (HDR) under a lowlight condition, 4K resolution recording, etc. Furthermore, the userscan visually see a captured image of the camera through the userinterface 42 and manually operate the view finding range on the userinterface 42 to achieve the autofocus function of what you see is whatyou get.

Moreover, the imaging lens assembly, the image sensor, the opticalanti-shake mechanism 44, the sensing element 45 and the focusingassisting module 47 can be disposed on a flexible printed circuit board(FPC) (its reference numeral is omitted) and electrically connected withthe associated components, such as the imaging signal processor 43, viaa connector (not shown) to perform a capturing process. Since thecurrent electronic devices, such as smart phones, have a tendency ofbeing compact, the way of firstly disposing the imaging lens assemblyand related components on the flexible printed circuit board andsecondly integrating the circuit thereof into the main board of theelectronic device via the connector can satisfy the requirements of themechanical design and the circuit layout of the limited space inside theelectronic device, and obtain more margins. The autofocus function ofthe imaging lens assembly can also be controlled more flexibly via thetouch screen of the electronic device. According to the 4th embodiment,the electronic device 40 includes a plurality of sensing elements 45 anda plurality of focusing assisting modules 47. The sensing elements 45and the focusing assisting modules 47 are disposed on the flexibleprinted circuit board and at least one other flexible printed circuitboard (not shown) and electrically connected with the associatedcomponents, such as the image signal processor 43, via correspondingconnectors to perform the capturing process. In other embodiments (notshown herein), the sensing elements and the focusing assisting modulescan also be disposed on the main board of the electronic device orcarrier boards of other types according to requirements of themechanical design and the circuit layout.

Furthermore, the electronic device 40 can further include, but not belimited to, a display, a control unit, a storage unit, a random accessmemory (RAM), a read-only memory (ROM), or the combination thereof.

FIG. 4D is a schematic view of an image shot via the ultra-wide anglecamera module 41 a according to the 4th example in FIG. 4A. In FIG. 4D,the larger range of the image can be captured via the ultra-wide anglecamera module 41 a, and the ultra-wide angle camera module 41 a has thefunction of accommodating more wide range of the scene.

FIG. 4E is a schematic view of an image shot via the high resolutioncamera module 41 b according to the 4th example in FIG. 4A. In FIG. 4E,the image of the certain range with the high resolution can be capturedvia the high resolution camera module 41 b, and the high resolutioncamera module 41 b has the function of the high resolution and the lowdeformation.

FIG. 4F is a schematic view of an image shot via the telephoto cameramodule 41 c according to the 4th example in FIG. 4A. In FIG. 4F, thetelephoto camera module 41 c has the enlarging function of the highmagnification, and the distant image can be captured and enlarged withhigh magnification via the telephoto camera module 41 c.

In FIGS. 4D to 4F, the zooming function can be obtained via theelectronic device 40, when the scene is captured via the camera module41 with different focal lengths cooperated with the function of imageprocessing.

The foregoing description, for purpose of explanation, has beendescribed with reference to specific examples. It is to be noted thatTables show different data of the different examples; however, the dataof the different examples are obtained from experiments. The exampleswere chosen and described in order to best explain the principles of thedisclosure and its practical applications, to thereby enable othersskilled in the art to best utilize the disclosure and various exampleswith various modifications as are suited to the particular usecontemplated. The examples depicted above and the appended drawings areexemplary and are not intended to be exhaustive or to limit the scope ofthe present disclosure to the precise forms disclosed. Manymodifications and variations are possible in view of the aboveteachings.

What is claimed is:
 1. A camera module, comprising: an imaging lens assembly for converging an imaging light on an image surface; an image sensor disposed on the image surface; a reflecting member located on an image side of one of imaging lenses of the imaging lens assembly, and the reflecting member comprising at least two reflecting surfaces for folding the imaging light; and a first driving apparatus, the reflecting member assembled on the first driving apparatus, and the first driving apparatus comprising: a supporting member; a moving holder, the reflecting member assembled on the moving holder, and the reflecting member relatively moving between the moving holder and the supporting member; at least one magnet disposed on one of the moving holder and the supporting member; and at least one magnetic member disposed on the other one of the supporting member and the moving holder, and the magnetic member corresponding to the magnet; wherein the first driving apparatus further comprises a rolling member, and the rolling member is disposed between the supporting member and the moving holder; wherein when the reflecting member moves close to the imaging lens assembly, the reflecting member simultaneously moves close to the image sensor; when the reflecting member moves away from the imaging lens assembly, the reflecting member simultaneously moves away from the image sensor.
 2. A camera module, comprising: an imaging lens assembly for converging an imaging light on an image surface; an image sensor disposed on the image surface; a reflecting member located on an image side of one of imaging lenses of the imaging lens assembly, the reflecting member comprising at least two reflecting surfaces for folding the imaging light, and having a first translational degrees of freedom; and a first driving apparatus, the reflecting member assembled on the first driving apparatus, and the first driving apparatus comprising: a supporting member; a moving holder, the reflecting member assembled on the moving holder, and the reflecting member relatively moving between the moving holder and the supporting member; at least one magnet disposed on one of the moving holder and the supporting member; and at least one magnetic member disposed on the other one of the supporting member and the moving holder, and the magnetic member corresponding to the magnet; wherein the at least two reflecting surfaces simultaneously move along the first translational degrees of freedom relative to the image sensor via the first driving apparatus; wherein when the reflecting member moves close to the imaging lens assembly, the reflecting member simultaneously moves close to the image sensor; when the reflecting member moves away from the imaging lens assembly, the reflecting member simultaneously moves away from the image sensor.
 3. The camera module of claim 2, wherein the first driving apparatus comprises: a coil, a driving force formed along the first translational degrees of freedom via the coil with the at least one magnet.
 4. The camera module of claim 2, wherein the reflecting member has a second translational degrees of freedom, and the second translational degrees of freedom and the first translational degrees of freedom are substantially orthogonal.
 5. The camera module of claim 4, further comprising: a second driving apparatus for driving the reflecting member moving along the second translational degrees of freedom.
 6. The camera module of claim 2, wherein the reflecting member comprises an incident surface and an exiting surface, and at least one of the incident surface and the exiting surface has an aspheric surface.
 7. The camera module of claim 2, wherein a refractive index of the reflecting member at d-line is N, and the following condition is satisfied: 1.66≤N<2.5.
 8. The camera module of claim 7, wherein the refractive index of the reflecting member at d-line is N, and the following condition is satisfied: 1.70≤N<2.5.
 9. The camera module of claim 2, wherein a thickness of the reflecting member is H, and the following condition is satisfied: 3.00 mm≤H≤10.00 mm.
 10. The camera module of claim 2, wherein a length of the camera module is L, a width of the camera module is W, and the following condition is satisfied: 0.7<L/W<3.5.
 11. The camera module of claim 10, wherein the length of the camera module is L, the width of the camera module is W, and the following condition is satisfied: 0.8<L/W<2.5.
 12. An electronic device, comprising: the camera module of claim
 2. 